Department

Physics

Major

Physics

Research Advisor

Fischer, Daniel

Advisor's Department

Physics

Funding Source

OURE Program / Scholarship

Abstract

Laser cooling techniques have evolved into a powerful experimental tool to perform precision spectroscopy (for instance, atomic clocks), study fundamental few-body dynamics, and create well-controlled systems for quantum information applications. When the atoms are captured, it is critical to analyze the laser-cooled atomic samples carefully and characterize their properties, such as density, temperature, population distribution, etc., in order to perform these advanced tasks. A straightforward way to measure these properties is detecting the visible optical photons emitted from the sample with a camera. Throughout this project, I have written and developed a computer application that controls a camera and extracts relevant information from the sample for further analysis.

Biography

Samuel is a Physics major graduating this semester with plans to start working in the healthcare industry before eventually returning to grad school. At S& T, he's been involved in Fencing, Society of Physics Students and Residential Life, all in addition to his academic work and research. He's proud of how far he's come and hopes to do well in the future to get the S& T name out there.

Research Category

Sciences

Presentation Type

Oral Presentation

Document Type

Presentation

Award

Sciences Oral Session - Third Place

Location

Havener Center - Carver Room

Presentation Date

10 April 2024, 1:00 pm - 4:00 pm

Included in

Physics Commons

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Apr 10th, 1:00 PM Apr 10th, 4:00 PM

Visualization of Ultracold Atomic Samples

Havener Center - Carver Room

Laser cooling techniques have evolved into a powerful experimental tool to perform precision spectroscopy (for instance, atomic clocks), study fundamental few-body dynamics, and create well-controlled systems for quantum information applications. When the atoms are captured, it is critical to analyze the laser-cooled atomic samples carefully and characterize their properties, such as density, temperature, population distribution, etc., in order to perform these advanced tasks. A straightforward way to measure these properties is detecting the visible optical photons emitted from the sample with a camera. Throughout this project, I have written and developed a computer application that controls a camera and extracts relevant information from the sample for further analysis.